PSTP2013 - (other pstp conferences)
9 - 13 September, 2013
Charlottesville, Virginia, USA
published June 18, 2014
Charlottesville, Virginia, USA
published June 18, 2014
The Workshop on Polarized Sources, Targets and Polarimetry is sponsored by the International Spin Physics Committee and has been a tradition for more than 20 years, moving between the USA, Europe and Japan. The XVth International Workshop on Polarized Sources, Targets and Polarimetry (PTSP 2013) will take place at the University of Virginia, Charlottesville, USA, and will be co-hosted by the University of Virginia and Jefferson Lab, whose scientists have long been active in spin physics and in fundamental symmetry measurements. The workshop addresses the physics and technological challenges related to polarized gas/solid targets, polarized electron/positron/ion/neutron sources, polarimetry and their applications.
| Welcome and Introduction |
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Preface to PSTP 2013 Proceedings
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Introduction and welcome
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The 12 GeV physics program at Jlab
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A Short History of Spin
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| Solid Polarized Solid Targets I |
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Physics of polarized targets (in memory of Michel Borghini and Franz Lehar)
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Recent research activities and results of the Bochum/Bonn Polarized Target Group
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Double polarized measurements with frozen spin target at MAMI
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| Solid Polarized Solid Targets II |
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Neutron spin filter based on dynamically polarized protons using photo-excited triplet states
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Novel Physics with tensor polarized deuteron targets
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COMPASS polarized target for Drell-Yan
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Investigation into polarization uncertainty minimization of solid polarized targets
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| Applications of Spin |
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Spintronics
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Polarized fusion: can polarization help to increase the energy output of fusion reactors?
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Search for Electric Dipole Moments with Polarized Beams in Storage Rings.
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Using Polarimetry To Determine The CEBAF Beam Energy
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| Solid Polarized Solid Targets III |
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Electrons on the HDice target: results and analysis of test runs at JLab in 2012
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Boosting Deuteron Polarization in HD Targets: Experience of moving spins between H and D with RF methods during the E06-101 experiment at Jefferson Lab
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HD gas purification for polarized HDice targets production at Jefferson Lab
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The HIGS frozen spin target
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| Polarized Internal Targets |
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Polarized Hydrogen/Deuterium molecules - A new option for polarized targets?
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Polarimetry for the polarized deuterium target at ANKE/COSY
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Upgrade of the PAX H and D polarized internal target for precision measurements at COSY
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| Polarized He-3 Targets |
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Polarized 3He spin filters for neutron science
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Spine-exchange polarized He-3 for electron scattering
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Jlab polarized He-3 target
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| New Facilities |
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Polarized electron beams in the MEIC collider ring at JLab
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Ion polarization control in MEIC rings using small magnetic fields integrals
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Electron and ion spin dynamics at eRHIC
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Polarimetry requirements at eRHIC
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Overview of High Intensity Gamma-ray Source at TUNL - Capabilities and Future Upgrades
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| Polarized Electron Sources I |
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PEPPo: using a polarized electron beam to produce polarized positrons
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Optically‐pumped spin‐exchange polarized electron source
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Demands on polarized electron sources by future experiments in parity violating electron scattering
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| Electron Polarimetry I |
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Overview of electron polarimetry
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Precision polarimetry results at Jlab, 6 GeV
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Precision Compton polarimetry for Hall C at Jefferson Lab
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| Electron Polarimetry II |
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Møller Polarimetry with Polarized Atomic Hydrogen at MESA
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High precision Compton polarimetry at 11 GeV Jefferson Lab
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A spin-light polarimeter for multi-GeV longitudinally polarized electron beams
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Sub-percent precision Møller polarimetry in experimental Hall C
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| Polarized Electron Sources II |
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Mott Polarimeter Upgrade at Jefferson Lab
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Funneling multiple bunches of high-charge polarized electrons
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High performance spin-polarized photocathode using GaAs/GaAsP strain-compensated superlattice
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Status of high intensity polarized electron gun project
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| Polarized Proton and Ion Sources I |
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Dudnikov retrospective I
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Dudnikov retrospective II
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Dudnikov retrospective III
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| Polarized Proton and Ion Sources II |
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Polarized 3He source development for RHIC
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The RHIC polarized source upgrade
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Polarization optimization studies for OPPIS
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Perspective for development of a universal source of highly polarized ions
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Perspective for development of a source of highly polarized 3He- ions
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| Hadron Polarimetry I |
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The recoil polarization experiments at Jefferson Lab
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Precision, absolute proton polarization measurements at 200 MeV
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Polarimetry at the AGS
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Measurement of the proton beam polarization with ultra thin carbon targets at RHIC
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| Hadron Polarimetry II |
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The polarized hydrogen jet target measurements at RHIC
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Polarization measurements and absolute polarization values evolution during proton beam acceleration in the RHIC accelerator complex
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A Helium-3 polarimeter using electromagnetic interference
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| Electron Sources III |
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The cathode preparation chamber for the DC high current high polarization gun (the Gatling gun)
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Investigation of pulsed spin polarized electron beams at the S-DALINAC
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Two Novel Approaches for Electron Beam Polarization from Unstrained GaAs
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| Polarized Electron Sources IV |
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Photocathode materials able to sustain high currents
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High average brightness electron beam production at Cornell University
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Polarized Xe129 for medical imaging
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| Polarized Proton and Ion Sources III |
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Polarized atomic beam sources: from the very start up to present days
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Polarized protons in the Fermilab main injector
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Status of the new source of polarized ions for the JINR accelerator complex
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| Polarized Porotn and ion Sources IV |
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Polarized ion sources with nearly resonant charge- exchange plasma ionizer: parameters and possibilities for improvements
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Long term performance of the COSY/Jülich polarized ion source
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DSMC simulations of polarized atomic beam sources including magnetic fields
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Concluding remarks
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